Evaluation and comparison of the behavioral properties of raw, alkali-treated, and triethoxy silane–treated cellulosic fibers derived from Rottboellia cochinchinensis plant as a substantial material for polymer composites
T. Ganapathy,
No information about this author
D. Sundarrajan,
No information about this author
S. Arivazhagan
No information about this author
et al.
International Journal of Biological Macromolecules,
Journal Year:
2025,
Volume and Issue:
unknown, P. 142794 - 142794
Published: April 1, 2025
Language: Английский
Evaluating the performance of Voronoi design structure of weaver bird nests reinforced composite for potential applications
S Arivazhagan,
No information about this author
T. Ganapathy,
No information about this author
N. Muthukumaran
No information about this author
et al.
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
7(5)
Published: April 20, 2025
Abstract
The
quest
for
novel
and
sustainable
fibres
presents
a
significant
challenge
in
researching
composite
materials.
In
this
study,
the
viability
of
weaver
bird
nests
has
been
investigated
as
hybrid
fibre
source
production.
Each
nest
exhibited
unique
variations
composition
structure,
reflecting
availability
diverse
their
respective
environments.
These
are
meticulously
integrated
with
an
epoxy
resin
matrix
to
create
composites
(designated
N1,
N2,
N3).
Mechanical
properties
such
tensile
strength,
flexural
hardness,
water
absorbency,
low-impact
resistance
have
evaluated
assess
performance
Additionally,
wear
testing
is
conducted
using
pin-on-disc
machine
varying
loads
(20,
30
40
N)
fixed
radius
50
mm.
Interestingly,
collected
from
village,
comprising
five
different
plant
fibres,
demonstrated
superior
mechanical
tribological
(N2)
compared
other
fibres.
Conversely,
N1
N3
diminished
performance,
attributed
limited
variety
looser
braiding
structure.
findings
suggest
that
natural
Voronoi
design
bundle
holds
promise
potential
polymer
composites.
However,
study
emphasizes
critical
role
selection
benefits
exploring
sources
advanced
materials
development.
Furthermore,
research
underscores
importance
procurement
illustrates
biomimicry
Language: Английский
Dynamic Properties and Vibration Response of Polymer Matrix Composites: Mechanisms, Influences, and Applications in Engineering
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(1)
Published: Jan. 1, 2025
ABSTRACT
Polymer
matrix
composites
(PMCs)
are
critical
materials
in
vibration‐intensive
applications,
including
aerospace,
automotive,
naval,
and
sports
sectors,
where
understanding
their
dynamic
behavior
is
essential
for
reliable
performance.
This
study
comprehensively
reviews
PMCs'
properties,
focusing
on
vibration
response
damping
characteristics.
It
explores
the
influence
of
material
parameters,
such
as
composition,
fiber
orientation,
stacking
sequence,
nanoparticle
incorporation,
natural
frequencies
ratios.
Experimental
techniques
like
mechanical
analysis
fast
Fourier
transform,
alongside
computational
analytical
methods,
finite
element
classical
theory,
utilized
to
evaluate
these
properties.
Key
findings
reveal
that
fibers
kenaf
hamp
enhance
eco‐friendly
while
synthetic
nanoparticles,
multi‐walled
carbon
nanotubes,
improve
frequency
but
may
reduce
damping.
The
effects
temperature
sensitivity
chemical
treatments
also
discussed,
emphasizing
role
optimizing
vibrational
Analytical
models
numerical
simulations
validate
findings,
providing
insights
into
structural
design.
work
bridges
knowledge
gaps
by
integrating
experimental
theoretical
approaches
offers
practical
strategies
developing
lightweight,
vibration‐resistant
PMCs
tailored
engineering
applications.
Future
research
should
focus
material–environment
interactions
advanced
Language: Английский
Recent Progress in Fiber Reinforced Polymer Hybrid Composites and Its Challenges-A Comprehensive Review
Chinnan Murugan Mohanraj,
No information about this author
R. Ramesh Kumar,
No information about this author
Mathanbabu Mariappan
No information about this author
et al.
Journal of Natural Fibers,
Journal Year:
2025,
Volume and Issue:
22(1)
Published: May 10, 2025
Language: Английский
Synergistic effect on the mechanical, thermal, and tribology characteristics of modified natural fibre composites with perforated waste PET
T. Ganapathy,
No information about this author
M. Thirukumaran,
No information about this author
S. Arivuazhagan
No information about this author
et al.
Biomass Conversion and Biorefinery,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Oct. 7, 2024
Language: Английский
Investigation into the Reinforcement Modification of Natural Plant Fibers and the Sustainable Development of Thermoplastic Natural Plant Fiber Composites
Polymers,
Journal Year:
2024,
Volume and Issue:
16(24), P. 3568 - 3568
Published: Dec. 20, 2024
Natural
plant
fibers
(NPFs)
have
emerged
as
a
sustainable
alternative
in
the
manufacture
of
composites
due
to
their
renewability
and
low
environmental
impact.
This
has
led
significant
increase
use
natural
fiber-reinforced
polymers
(NPFRPs)
variety
industries.
The
diversity
NPF
types
brings
wide
range
properties
functionalities
NPFRPs,
which
turn
highlights
urgent
need
improve
fiber
materials
order
enhance
performance
suitability.
paper
provides
insight
into
processing
mechanisms
behind
treatments,
exploring
how
these
treatments
affect
mechanical,
thermal
NPFRPs.
It
also
offers
critical
assessment
advantages
disadvantages
physical,
chemical,
biological
nanotechnological
treatments.
findings
our
analysis
provide
basis
for
development
future
that
aim
material
thereby
increasing
competitiveness
with
conventional
synthetic
polymers.
Finally,
novel
thermoplastic
resin
composite
system,
Elium–NPFRP,
is
proposed
embodies
principles
green
development.
system
been
designed
objective
capitalizing
on
benefits
NPFs
while
simultaneously
addressing
challenges
associated
integration
polymer
matrices.
Elium–NPFRP
not
only
exemplifies
potential
science,
but
practical
solution
can
be
implemented
diverse
applications,
spanning
automotive
components
construction
materials.
reduce
carbon
footprints
promote
circular
economy.
Language: Английский